GE 255 Drain Line Connection, Brine Line Connection, Brine Tank Overflow Line Connection

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Drain Line Connection

Note: Standard commercial practices are expressed here. Local codes may require changes to the following suggestions. Check with local authorities before installing a water conditioning system.

The system should be above, and not more than 20 feet (6.1 m) from a drain. Connect an appropriate fitting and 1/2-inch (1.3-cm) plastic tubing to the drain line connection on the rear of the control valve.

If the backwash flow is more than 5 gpm or if the unit is located more than 20 feet (6.1 m) from the drain, use 3/4- inch (1.9-cm) tubing for runs up to 40 feet (12.2 m). Also, purchase appropriate fitting to connect the 3/4-inch tubing to the 1/2-inch NPT drain connection.

If unit is located where the drain line must be elevated, you may elevate the line up to 5 feet (1.5 m) providing the run does not exceed 15 feet (4.6 m) and water pressure at the conditioners is not less than 40 psi (2.8 bar).

Where drain line is elevated but empties into a drain below the level of the control valve, form a 7-inch (18-cm) loop at the far end of the line so that the bottom of the loop is level with the drain line connection. This will provide an adequate siphon trap.Where a drain empties into an overhead sewer line, a sink-type trap must be used. Secure the end of the drain line to prevent it from moving (Figure 11).

Brine Line Connection

It is recommended that separate brine lines be used for each tank.

A regenerant tank aircheck is not required when using a

255valve with the built-in aircheck. Doing so will cause premature checking and may result in hard water or regenerant tank overflow. The 255 aircheck is available standard with a 1/4" NPT tube compression fitting. The use of Teflon tape is required on the 1/4" NPT connection.

Install an appropriate fitting onto the 1/4-inch male NPT connection on the air check (Figure 9), and install a length of 3/8-inch polyethylene tubing between the air check fitting and the brine pick-up tube at the brine tank. If you are using a brine valve remove the ball in the air check to avoid possible premature checking.

 

Regenerant Tank

Check Ball

Tube Connection

 

 

Air Check

Figure 9

Note: Make sure that all fittings and connections are vacuum tight so that premature checking does not take place. Premature checking occurs when the ball in the air check falls to the bottom before all brine is drawn out of the brine tank.

Brine Tank Overflow Line Connection

In the event of a malfunction, the brine tank overflow connection directs overflow to the drain instead of spilling it on the floor where it could cause water damage. Complete the following steps to connect the overflow fitting to the brine tank:

1.Locate the fitting hole on the side of the brine tank.

2.Insert the overflow fitting (not supplied) into the tank and tighten with the plastic thumb nut and gasket as illustrated in Figure 10.

Figure 10 Brine Tank Drain

3.Attach a length of 1/2-inch (1.3-cm) tubing (not supplied) to the fitting and run to the drain.

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Contents Lockout ModelsPage Table of Contents Safety Information How To Use This Manual FrontBack Outdoor Locations Location SelectionUnconditioned water Conditioned water out Installation Location SelectionWater Line Connection Drain Line Connection Brine Line ConnectionBrine Tank Overflow Line Connection Electrical Connection Brine TankVAC AC Adapters Disinfection of Water Conditioning Systems System Operation Camshaft Cycle Positions Power Loss Memory RetentionValve Disc Location/Function Control OperationX100 Display Icons & CursorsProgramming Conventions Keypad ButtonsPlacing Water Conditioning System Into Operation Power-up the ControlRemove air from tanks Preprogrammed Valves TypeMetric Resin Volume 0.25 ft3 and 5 Liter StepsScreen Buttons to Description Quick Cycling the Control 255L and 255P Fully Operational Quick Cycling the Control for 255A SystemsTo Place the 255 Alternating System into Operation C8 Regenerant Refill Quick cycle to Service Programming Overview Service DisplayLevel I Programming Logix 764 Electronic Multi-Tank a Alternating ControlLevel II Programming P Values Description Range Minimum Default UnitsSalt Setting Programming the Lockout FeatureSalt Setting Exchange Capacity 255 ValveLevel lll Cycle Programming C Values Description Range Minimum DefaultProgram Reset Level IV Viewing History H ValuesHistory Data Description Range Delayed Second Regeneration Delayed Manual RegenerationManual Regeneration Options Immediate Manual RegenerationP16 = Priority Flow Continuous Efficiency Regeneration Modes for Parallel SystemsHigh Ave Low P16 = High Ave LowRemote Regeneration Start Wiring DiagramsConnecting the Logix 764 Multi Single Tank Control Exploded View & Parts List Parts ListsNumber Description QtyBypass Valve and Turbine Adapter BypassTurbine Adapter Part Description Qty Manifold Kits Controller Error Codes & 255 L with Check Salt Light TroubleshootingProblem Possible Cause Solution System TroubleshootingReset control and program resin volume Page Page Copyright 2007 General Electric Company P/N 3019624 Rev a

255 specifications

The GE 255 is a versatile and powerful gas turbine, known for its exceptional efficiency and reliability in various industrial applications. As one of the flagship models from General Electric, the GE 255 has garnered attention for its performance, design, and technological advancements.

One of the main features of the GE 255 is its advanced aerodynamics. The turbine incorporates cutting-edge blade designs that enhance airflow and optimize combustion efficiency. These aerodynamic improvements contribute to increased power output, allowing the turbine to generate more energy while consuming less fuel. The efficiency of the GE 255 makes it an attractive option for power plants looking to reduce operational costs while maintaining high output levels.

In addition to its aerodynamic features, the GE 255 is equipped with sophisticated combustion technology. This technology enables the turbine to achieve low emissions, adhering to strict environmental regulations. The combustion system is designed to provide stable and reliable operation across various load conditions, ensuring that power generation remains consistent even in fluctuating demand scenarios.

The GE 255 also boasts a modular design, allowing for easier maintenance and upgrades. The components are designed with serviceability in mind, ensuring that downtime is minimized during routine inspections or repairs. This modular approach not only enhances the overall lifespan of the turbine but also allows operators to implement technology upgrades as they become available, ensuring that the equipment remains state-of-the-art.

Moreover, the GE 255 integrates advanced monitoring and control systems that provide real-time data on performance and operational health. These systems enable operators to make informed decisions, optimizing performance and identifying potential issues before they escalate. The data collected can be analyzed to improve operational practices and reduce maintenance costs.

The turbine's robust construction also contributes to its reliability. Built to withstand harsh operating conditions, the GE 255 includes features that protect critical components from wear and degradation. This durability extends the operational life of the turbine and enhances its overall availability for power generation.

In summary, the GE 255 is a state-of-the-art gas turbine distinguished by its advanced aerodynamics, low emissions combustion technology, modular design, and robust monitoring systems. It represents a blend of efficiency and reliability, making it a leading choice for energy providers aiming to maximize output while minimizing environmental impact. Its combination of innovative features positions the GE 255 as a significant player in the competitive landscape of gas turbines.